ETAP PowerStation 4.0

Size: px
Start display at page:

Download "ETAP PowerStation 4.0"

Transcription

1 ETAP PowerStation 4.0 User Guide Copyright 2001 Operation Technology, Inc. All Rights Reserved This manual has copyrights by Operation Technology, Inc. All rights reserved. Under the copyright laws, this manual may not be copied, in whole or in part, without the written consent of Operation Technology, Inc. The Licensee may copy portions of this documentation only for the exclusive use of Licensee. Any reproduction shall include the copyright notice. This exception does not allow copies to be made for other persons or entities, whether or not sold. Under this law, copying includes translating into another language. Certain names and/or logos used in this document may constitute trademarks, service marks, or trade names of Operation Technology, Inc. or other entities. Access, Excel, ODBC, SQL Server, Windows NT, Windows 2000, Windows Me, Windows 98, Windows XP, and Microsoft Word are registered trademarks of Microsoft Corporation. AutoCad is a registered trademark of Autodesk. Oracle is a registered trademark of Oracle Corporation. PowerPlot is a registered trademark of Jackson & Associates. Crystal Reports is a registered trademark of Seagate Software. MATLAB and Simulink are registered trademarks of MathWorks Screen shot(s) reprinted by permission from Microsoft Corporation. Operation Technology, Inc. believes that the information contained herein is accurate as of its publication date, and such information is subject to change without notice. This information is provided as is without warranty of any kind, either expressed or implied, including but not limited to the implied warranties of merchantability, fitness for a particular purpose, or noninfringement. Operation Technology, Inc. assumes no responsibility for errors or omissions in this publication or any other documents referenced in this publication. Operation Technology, Inc. Southern California (949) Sales (949) Fax (949) User Support

2 Chapter 10 AC-DC Elements Editors are available for each element type in the one-line diagram and in the underground raceway system. Except for the element IDs, bus connections, and status, all other data that appear in the editors are considered engineering properties. One-Line Diagram Element Editors Each element available on the One-Line Diagram Toolbar has a customized editor. This chapter addresses the AC-DC element editors. AC-DC Elements UPS (Uninterruptible Power Supply) VFD (Variable Frequency Drive) Charger Inverter Operation Technology, Inc ETAP PowerStation 4.0

3 UPS 10.1 UPS (Uninterruptible Power Supply) The properties associated with UPSs (Uninterruptible Power Supply) of the electrical system can be entered in this editor. A UPS consists of two AC terminals (input & output) and one DC terminal. The DC terminal is located on the side and can be connected to a DC bus (node). The UPS Editor contains the following nine pages of information. Info Page Rating Page Loading Page SC Imp Page Duty Cycle Page Harmonic Page Reliability Page Remarks Page Comment Page Info Page Within the Info page, specify the UPS ID, connected Bus, In/Out of Service, Equipment FDR Tag, Name, Description, Data Type, load Priority, Configuration Status, AC Connections, and Demand Factor. Operation Technology, Inc ETAP PowerStation 4.0

4 UPS Info ID Enter a unique alphanumeric ID with a maximum of 25 characters. PowerStation automatically assigns a unique ID to each UPS. The default IDs consist of the word Ups plus an integer, starting with the number one and increasing as the number of UPS increases. The default ID (UPS) for UPS elements can be changed from the Defaults menu in the menu bar or from the Project View. In Bus and DC Bus These are the IDs of the connecting buses for the UPS. If the terminal is not connected to any bus, a blank entry will be shown for the bus ID. To connect or reconnect a UPS to a bus, select a bus from the list box. The one-line diagram will be updated to show the new connection after you click on OK. Note that you can connect the terminals of the UPS to AC & DC buses that reside in the same view where it resides, or you can connect to buses that reside in other views by connecting the external and internal pins of the composite networks. You cannot connect to buses that reside in the Dumpster. If a UPS is connected to a bus through a number of protective devices, reconnection of the UPS to a new bus in this editor will reconnect the last existing protective device to the new bus, as shown below where Ups1 is reconnected from Bus10 to Bus4. Next to the bus ID, PowerStation displays the nominal kv in AC terminal buses and nominal V in DC terminal buses for your convenience. In/Out of Service Operating conditions of a UPS can be selected by choosing either the In Service or Out of Service option. The properties of an Out of Service UPS can be edited like an In Service UPS; however, an Out of Service UPS will not be included in any system studies. When Continuity Check is activated, an Out of Service UPS automatically becomes dimmed in the one-line diagram. Note that the In/Out of Service option is an engineering property and is independent of the configuration status. Therefore, you can set a UPS to be In Service for the Base Data and Out of Service in Revision Data. Operation Technology, Inc ETAP PowerStation 4.0

5 UPS Configuration Select the operating status of the UPS(s) for the selected configuration status from the list box. Options for operating status include: Continuous Continuously operating load Intermittent Intermittently operating load Spare Spare load (no short-circuit contribution) Depending on the demand factor specified for each operating status, the actual loading of the UPS is determined for load flow studies. Note that status is not a part of the UPS engineering properties. For this reason, the name of the configuration status is shown, indicating the UPS status under the specific configuration, i.e., you can have a different operating status under each configuration. In the following example, status of a UPS is shown to be Continuous under Normal configuration and Spare under Emergency configuration. Equipment FDR Tag Enter the feeder tag in this field, up to 25 alphanumeric characters. Name Enter equipment name, up to 50 alphanumeric characters. Description Enter equipment description, up to 100 alphanumeric characters. Data Type This field provides a convenient way to track data entry. Select one of the data types (such as estimate, typical, vendor, final, etc.) from the list box. As the data is updated, this field can be changed to reflect the source of the latest data. There are a total of 10 load types and you can change their name from the Project menu under Settings and Data Type. Priority Select the load priority of this UPS from the list box. This field can be used for load priority, operating priority, load shedding priority, etc. Ten different priorities are provided to select from. Priority names can be changed from the Project menu under Settings and Load Priority. AC Connection 3-Phase For this release of PowerStation, the connection type for the AC input is set to 3-Phase. Operation Technology, Inc ETAP PowerStation 4.0

6 UPS 1-Phase For this release of PowerStation, there is no output form the UPS model. Therefore, the connection pin on the output side is disabled. Demand Factor Modify the demand factors for Continuous, Intermittent, and Spare status in the provided entry fields. The Demand factor is the amount of time the UPS is actually operating. The Demand factor affects the calculation of UPS loads for different loading categories. Load kw = Rated kw * % Loading * Demand Factor The Demand factors for Continuous, Intermittent, and Spare status have a range from 0% to 100%. Since demand factors are a part of engineering properties, PowerStation uses the same factors for all configurations Ratings Page In this page, you can specify the UPS ratings and select the UPS operating mode and type. AC Rating kw Enter the kw rating of the UPS (output power at full load). Click on the kw/mw button to choose either kw or MW units for entering and displaying output power ratings of the UPS. When the kw rating is modified, the rated power factor (including the operating load and losses for all loading categories) is recalculated in order to keep the rated kva fixed. PowerStation limits the entry of kw/mw in such a way that the power factor cannot exceed 100% or be below 1%. kva Enter the rated output kva (or MVA) of the UPS. When the kva rating is modified, the rated kw and full load current of the UPS are recalculated. Operation Technology, Inc ETAP PowerStation 4.0

7 UPS kv Enter the rated AC output voltage of the UPS in kv. FLA The rated AC output full load current of the UPS in amperes is displayed here. % Eff Enter the rated efficiency of the UPS in percent. When the efficiency is modified, the full load currents for the AC input and DC sides are recalculated. Efficiency cannot exceed 100% or be below 10%. It defaults to 90%. % PF Enter the rated power factor of the UPS output power. When the power factor is modified, the rated kw is recalculated. Power factor cannot exceed 100%. It defaults to 85%. Input kv Enter the rated AC input voltage of the UPS in kv. The rated AC input full load current is calculated based on this value. FLA The rated AC input full load current of the UPS in amperes is displayed here. DC Rating V Enter the rated DC input voltage of the UPS in volts. The rated DC full load current is calculated based on this value. FLA The rated DC full load current of the UPS in amperes is displayed here. Imax Enter the maximum DC output current of the UPS in percentage of the rated DC full load current. The UPS becomes a constant current source when the DC load current exceeds the Imax in DC load flow studies. PowerStation uses Imax as the constant current source value. Imax defaults to 150%. Operating Mode Constant Vdc When you select this option, the rated DC voltage is used as the regulated voltage source of the UPS for DC load flow studies. With this option, the firing angle is adjusted to keep the DC voltage constant. Fixed Firing Angle When you select this option, the DC voltage of the UPS (for DC load flow studies) is calculated using a fixed value for the firing angle (Alpha) and the input bus voltage. Operation Technology, Inc ETAP PowerStation 4.0

8 UPS Vdc This field displays the DC voltage source of the UPS in volts. Alpha Enter the fixed firing angle (Alpha) of the UPS in degrees for the calculation of the voltage source value. This field allows you to enter a value between 0 and 90 degrees, which means the UPS can only transfer power from its AC terminal to the DC terminal. The DC output voltage is proportional to cosine of alpha. Options Auction Diode When the Auction Diode option is selected, the UPS is treated as a DC load in the DC system, i.e., DC power can only flow into the UPS. In this case, the UPS will not provide power to the DC system for load flow or short-circuit studies. Without the auction diode, DC power can flow in or out of the UPS. Bypass Switch The Bypass Switch only affects AC short-circuit studies. When the Bypass Switch is selected, the UPS is treated as a shorted branch crossed between AC input and output terminals. If Bypass Switch is not selected, there is no short-circuit current contribution from the AC output side to the input side Loading Page In this page, specify the percent output loading of the UPS for all loading categories. The kw and kvar input load of the UPS based on the specified efficiency and power factor are calculated and displayed here. Also, the DC operating load and losses in kw are displayed here. Operation Technology, Inc ETAP PowerStation 4.0

9 UPS Operating Load AC Input This area displays the updated AC input operating load of the UPS in kw/kvar or MW/Mvar when DC load flow studies are run and Update Operating Load is checked in the DC Load Flow Study Case Editor. These values will also get updated when the UPS output is connected to an AC system and AC load flow studies are run with Update Operating Load selected in the AC Load Flow Study Case Editor. AC Output This area displays the updated AC output operating load of the UPS in kw/kvar or MW/Mvar when Update Operating Load is checked in the DC Load Flow Study Case Editor, or when the UPS output is connected to an AC system and the Update Operating Load option is selected in the AC Load Flow Study Case Editor. DC This area displays the updated DC operating load of the UPS in kw or MW. It is updated when you run DC load flow studies and the UPS does not have an auction diode and the Update Operating Load option is checked in the DC Load Flow Study Case Editor. Loading Category This section is used to assign a percent loading to each one of the ten loading categories for AC loading and DC loading of this UPS, i.e., each UPS can be set to have a different operating loading level for each loading category. To edit the values of the percent loading, click on any one of the edit fields under the % Loading column. Note that you can select any of these loading categories when conducting AC or DC load flow studies. To edit the loading category names, select Loading Category from the Project menu SC Imp Page Within the SC Imp page, specify the AC and DC short-circuit multiplication factors and the grounding resistance of the UPS, and view calculated AC and DC short-circuit contribution currents. Operation Technology, Inc ETAP PowerStation 4.0

10 UPS SC Contribution to AC System Kac Enter the AC short-circuit multiplication factor in percent of the output FLA. PowerStation uses this value to calculate short-circuit current contribution from the UPS to the AC output side. The AC multiplication factor defaults to 150%. Isc The AC short-circuit current contribution from the UPS to the output side is calculated and displayed here in amperes. SC Contribution to DC System Kdc Enter the DC short-circuit multiplication factor in percent of DC FLA. PowerStation uses this value to calculate short-circuit current contribution from the UPS in DC short-circuit studies. The DC multiplication factor defaults to 150%. Isc The DC short-circuit current contribution from the UPS is calculated and displayed here in amperes. DC Grounding Grounded When you select the Grounded option, the UPS is grounded. R Enter the UPS grounding resistance in ohms. For a solidly grounded UPS, enter zero for the grounding resistance. Operation Technology, Inc ETAP PowerStation 4.0

11 UPS Duty Cycle Page Within the Duty Cycle page, specify the duty cycle category and load profile for each duty cycle. PowerStation displays the load profile for random and non-random loads for viewing and printing. The data in this page are used in battery sizing studies. Duty Cycle This section is used to specify load profile for each one of the five duty cycle categories. Duty Cycle Category Select a duty cycle category from the list box and view the load profile for it in this page. Each load can have up to five duty cycle categories with independent load profiles. You can name the duty cycle categories from the Project menu bar. Load Profile To add a load to the load profile, click on either the Ins or Add button, or press the Insert key to create a row in the load profile table. Each row represents a segment of the load profile for this duty cycle. To edit the load profile, click on the button under the Active column, and this segment of load will be considered in studies. Click on the button under the Random column, and this segment of load will be treated as a random load in studies. Click on the field under the Type column and pick one of the seven types in the list box. Enter a load name, current in amperes, start time in seconds, and duration in seconds for this segment of load. After the data of a row is entered, this segment of load curve will be drawn on the Non-Random or Random window. To delete a row of data, highlight the row by clicking the number of the row, then click on the Del button or press the Delete key. Click on either the <-Print or Print-> button, and the displayed load profile curve (random & nonrandom) for the selected duty cycle will be printed out. Note that you can select any of the duty cycle categories when conducting battery sizing studies. To edit the loading category names, select Duty Cycle Category from the Project menu. Operation Technology, Inc ETAP PowerStation 4.0

12 UPS Harmonic Page Within the Harmonic page, specify the harmonic source type of the UPS and view the harmonic source waveform and frequency spectrum of the UPS. Use Library Data Get the harmonic source data of the UPS from the Harmonic Library. Calculate Based on Parameters Calculate the harmonic source data based on the parameters of the UPS. Parameters Enter the parameters of the UPS for the calculation of the harmonic source data. Harmonic Library Library Button Click on the Library button to pick up the UPS harmonic source data including harmonic source type, device type, and manufacture/model from the library. Operation Technology, Inc ETAP PowerStation 4.0

13 UPS Type Display the UPS harmonic source type picked up from the Harmonic Library. Manufacturer Display the UPS device type picked up from the Harmonic Library. Model Display the UPS manufacturer/model picked up from the Harmonic Library. Waveform Display the harmonic source waveform of the UPS. Spectrum Display the harmonic frequency spectrum of the UPS. Print Buttons Click on either of the Print buttons to print out the waveform or frequency spectrum of the UPS. Operation Technology, Inc ETAP PowerStation 4.0

14 UPS Reliability Reliability Parameters λ A Active Failure Rate in number of failures per year. The Active Failure Rate is associated with the component failure mode that causes the operation of the primary protection zone around the failed component and can therefore cause the removal of other healthy components and branches from service. It should be noted that the failed component itself (and those components that are directly connected to it) could be restored to service only after repair or replacement of the failed component. µ The Mean Repair Rate in number of repairs per year is automatically calculated and based on MTTR (µ = 8760/MTTR). FOR It is the Forced Outage Rate (i.e., unavailability) calculated based on MTTR, λ A (FOR = MTTR/(MTTR+8760/λ A ). MTTF The Mean Time To Failure in years is automatically calculated and based on λ A (MTTF = 1.0/λ A ). MTTR The Mean Time To Repair in hours is the expected time necessary for a crew to repair a failed component and/or restore the system to its normal operating state. Alternative Supply Switching Time This is the time in hours necessary to isolate a failure. It is the period of time starting from the moment a switching operation is requested until the operation is completed. Operation Technology, Inc ETAP PowerStation 4.0

15 UPS Replacement Available Check this box to enable r P rp It is the replacement time in hours needed to replace a failed component with a spare. Library Library Click on the Library button to bring up the Library Quick Pick Editor for reliability data. Interruption Cost Load Sector Select the Load Sector name for the load. The Load Sector information is used to obtain interruption cost information from the Reliability Cost library in order to calculate Expected Interruption Costs Remarks Page User-Defined Info These fields allow you to keep track of extra data associated with this component. The names of the User-Defined (UD) fields can be changed from the Settings option in the Project menu in the Menu bar. UD Field 1 (Eq. Ref.) This is a number field with the default name Eq. Ref. You can change the name of this field and enter the equipment reference number or any other number here, up to five digits. Operation Technology, Inc ETAP PowerStation 4.0

16 UPS UD Field 2 (Last Maint.) This is an alphanumeric field with the default name Last Maint. You can change the name of this field and enter any extra data for this element here, up to 12 alphanumeric characters. UD Field 3 (Next Maint.) This is an alphanumeric field with the default name Next Maint. You can change the name of this field and enter any extra data for this element here, up to 12 alphanumeric characters. UD Field 4 (Tests Req.) This is an alphanumeric field with the default name Tests Req. You can change the name of this field and enter any extra data for this element here, up to 12 alphanumeric characters. UD Field A5 This is an alphanumeric field with the default name UD Field A5. You can change the name of this field and enter any extra data for this element here, up to 12 alphanumeric characters. UD Field A6 This is an alphanumeric field with the default name UD Field A6. You can change the name of this field and enter any extra data for this element here, up to 12 alphanumeric characters. UD Field A7 This is an alphanumeric field with the default name UD Field A7. You can change the name of this field and enter any extra data for this element here, up to 18 alphanumeric characters. Drawing/Diagram One-Line Enter the name or ID of a one-line drawing or diagram associated with this element, up to 50 alphanumeric characters. An example is the manufacturer diagram or specifications for this element. Reference Enter the name or ID of a reference drawing or document for this element, up to 50 alphanumeric characters. Manufacturer Name Enter the manufacturer s name for this element here, up to 25 alphanumeric characters. Purchasing Date Enter the date of purchase for this element here, up to 8 alphanumeric characters. Operation Technology, Inc ETAP PowerStation 4.0

17 UPS Comment Page Enter any extra data or comments regarding condition, maintenance, tests, or studies, associated with this element. This field can be up to 64kb with a default size of 4kb. To increase the size of this field, refer to the entries in the ETAPS.INI file. When entering information in the page, use Ctrl+Enter to start a new paragraph. Standard keys such as Ctrl+X, Ctrl+C, and Ctrl+V can be used to cut, copy, and paste information. Operation Technology, Inc ETAP PowerStation 4.0

18 VFD 10.2 VFD (Variable Frequency Drive) The properties associated with VFDs (Variable Frequency Drive) of the electrical system can be entered in this editor. The Variable Frequency Drive Editor contains the following five pages of information: Info Page Rating Page Harmonic Page Reliability Page Remarks Page Comment Page Info Page Within the Info page, specify the VFD ID, connected bus and load IDs, In/Out of Service, Equipment FDR (feeder) Tag, Name, Description, Data Type, and load Priority. Info ID Enter a unique alphanumeric ID with a maximum of 25 characters. PowerStation automatically assigns a unique ID to each VFD. The assigned IDs consist of the default ID plus an integer, starting with the number one and increasing as the number of VFDs increases. The default ID (VFD) for VFD elements can be changed from the Defaults menu in the menu bar or from the Project View. Input Bus and Load These are the IDs of the connecting bus and load for the VFD. If the terminal is not connected to any bus or load, a blank entry will be shown for the bus or load ID. To connect or reconnect a VFD to a bus, select a bus from the list box. The one-line diagram will be updated to show the new connection after you click on OK. Operation Technology, Inc ETAP PowerStation 4.0

19 VFD Note that you can connect the terminals of the VFD to AC buses that reside in the same view where it resides, or you can connect to buses that reside in other views by connecting the external and internal pins of the composite networks. You cannot connect to buses that are in the Dumpster. Note that the output terminal of a VFD can only be connected directly to induction motors, synchronous motors, MOVs, static loads, and lumped loads. You cannot insert any switching devices between the VFD and the connected load. If a VFD is connected to a bus through a number of protective devices, reconnection of the VFD to a new bus in this editor will reconnect the last existing protective device to the new bus, as shown below where Vfd1 is reconnected from Bus10 to Bus4. Next to the bus ID, PowerStation displays the nominal kv for your convenience. In/Out of Service Operating conditions of a VFD can be selected by choosing either the In Service or Out of Service option. The properties of an Out of Service UPS can be edited like an In Service VFD; however, an Out of Service VFD will not be included in any system studies. When Continuity Check is activated, an Out of Service VFD automatically becomes dimmed in the one-line diagram. Note that the In/Out of Service option is an engineering property and is independent of the configuration status. Therefore, you can set a VFD to be In Service for the Base Data and Out of Service in Revision Data. Equipment FDR Tag Enter the feeder tag in this field, up to 25 alphanumeric characters. Name Enter equipment name, up to 50 alphanumeric characters. Description Enter equipment description, up to 100 alphanumeric characters. Operation Technology, Inc ETAP PowerStation 4.0

20 VFD Data Type This field provides a convenient way to track data entry. Select one of the data types (such as estimate, typical, vendor, final, etc.) from the list box. As the data is updated, this field can be changed to reflect the source of the latest data. There are a total of ten load types and you can change their name from the Project menu under Settings and Data Type. Priority Select the load priority of this VFD from the list box. This field can be used for load priority, operating priority, load shedding priority, etc. Ten different priorities are provided to select from. Priority names can be changed from the Project menu under Settings and Load Priority Rating Page In this page, you can specify the VFD ratings and select the VFD bypass switch. Rating HP/kW Enter the VFD rating in horsepower (HP) or kw. You can choose from these two options by clicking on the HP/kW button. kv Enter the rated voltage of the VFD in kv. % Eff Enter the efficiency of the VFD in percent. Efficiency cannot exceed 100%. PowerStation uses this value to calculate the losses of the VFD. Losses associated with VFDs are included as part of the connected load. Operation Technology, Inc ETAP PowerStation 4.0

21 VFD Bypass Switch The Bypass Switch only affects AC short-circuit studies. When Bypass Switch is selected, the VFD is treated as a shorted branch (switch) crossed between input and output terminals. If Bypass Switch is not selected, there is no short-circuit current contribution from the connected motor to the input side Harmonic Page Within the Harmonic page, specify the harmonic source type of the VFD, and display the harmonic source waveform and frequency spectrum of the UPS. Use Library Data Get the harmonic source data of the VFD from the Harmonic Library. Calculate Based on Parameters Calculate the harmonic source data based on the parameters of the VFD. Parameters Enter the parameters of the VFD for the calculation of the harmonic source data. Harmonic Library Library Button Click on the Library button to pick up the VFD harmonic source data including harmonic source type, device type, and manufacture/model. Operation Technology, Inc ETAP PowerStation 4.0

22 VFD Type This area displays the VFD harmonic source type picked up from the Harmonic Library. Manufacturer This area displays the VFD device type picked up from the Harmonic Library. Model This area displays the VFD Manufacturer/model picked up from the Harmonic Library. Waveform This area displays the harmonic source waveform of the VFD. Spectrum This area displays the harmonic frequency spectrum of the VFD. Print Buttons Click on the Print buttons to print out the waveform or frequency spectrum of the VFD Reliability Page Operation Technology, Inc ETAP PowerStation 4.0

23 VFD Reliability Parameters λ A Active Failure Rate in number of failures per year. The Active Failure Rate is associated with the component failure mode that causes the operation of the primary protection zone around the failed component and can therefore cause the removal of other healthy components and branches from service. It should be noted that the failed component itself (and those components that are directly connected to it) can be restored to service only after repair or replacement of the failed component. λp Passive Failure Rate in number of failures per year. The Passive Failure Rate is associated with a component failure mode that does not cause the operation of the primary protection zone around the failed component, and therefore, does not have an impact on the remaining healthy components and branches of the system. Repairing or replacing the failed component will restore service. µ The Mean Repair Rate in number of repairs per year is automatically calculated and based on MTTR (µ = 8760/MTTR). FOR It is the Forced Outage Rate (i.e., unavailability) calculated based on MTTR, λ A (FOR = MTTR/(MTTR+8760/λ A ). MTTF The Mean Time To Failure in years is automatically calculated and based on λ A (MTTF = 1.0/λ A ). MTTR The Mean Time To Repair in hours is the expected time necessary for a crew to repair a failed component and/or restore the system to its normal operating state. Alternative Supply Switching Time This is the time in hours necessary to isolate a failure. It is the period of time starting from the moment a switching operation is requested until the operation is completed. Replacement Available Check this box to enable r P r P It is the replacement time in hours needed to replace a failed component with a spare. Library Library Click on the Library button to bring up the Library Quick Pick Editor for reliability data. Operation Technology, Inc ETAP PowerStation 4.0

24 VFD Remarks Page User-Defined Info These fields allow you to keep track of extra data associated with this component. The names of the User-Defined (UD) fields can be changed from the Settings option in the Project menu in the Menu bar. UD Field 1 (Eq. Ref.) This is a number field with the default name Eq. Ref. You can change the name of this field and enter the equipment reference number or any other number here, up to five digits. UD Field 2 (Last Maint.) This is an alphanumeric field with the default name Last Maint. You can change the name of this field and enter any extra data for this element here, up to 12 alphanumeric characters. UD Field 3 (Next Maint.) This is an alphanumeric field with the default name Next Maint. You can change the name of this field and enter any extra data for this element here, up to 12 alphanumeric characters. UD Field 4 (Tests Req.) This is an alphanumeric field with the default name Tests Req. You can change the name of this field and enter any extra data for this element here, up to 12 alphanumeric characters. UD Field A5 This is an alphanumeric field with the default name UD Field A5. You can change the name of this field and enter any extra data for this element here, up to 12 alphanumeric characters. UD Field A6 This is an alphanumeric field with the default name UD Field A6. You can change the name of this field and enter any extra data for this element here, up to 12 alphanumeric characters. UD Field A7 This is an alphanumeric field with the default name UD Field A7. You can change the name of this field and enter any extra data for this element here, up to 18 alphanumeric characters. Operation Technology, Inc ETAP PowerStation 4.0

25 VFD Drawing/Diagram One-Line Enter the name or ID of a one-line drawing or diagram associated with this element, up to 50 alphanumeric characters. An example is the manufacturer diagram or specifications for this element. Reference Enter the name or ID of a reference drawing or document for this element, up to 50 alphanumeric characters. Manufacturer Name Enter the manufacturer s name for this element here, up to 25 alphanumeric characters. Purchasing Date Enter the date of purchase for this element here, up to 8 alphanumeric characters Comment Page Enter any extra data or comments regarding condition, maintenance, tests, or studies, associated with this element. This field can be up to 64kb with a default size of 4kb. To increase the size of this field, refer to the entries in the ETAPS.INI file. When entering information in the page, use Ctrl+Enter to start a new paragraph. Standard keys such as Ctrl+X, Ctrl+C, and Ctrl+V can be used to cut, copy, and paste information. Operation Technology, Inc ETAP PowerStation 4.0

26 Charger 10.3 Charger The properties associated with DC chargers of the electrical system can be entered in this editor. The Charger Editor contains the following eight pages of information: Info Page Rating Page Loading Page SC Page Harmonic Page Reliability Page Remarks Page Comment Page Info Page Within the Info page, specify the charger ID, connected bus, In/Out of Service, Equipment FDR (feeder) Tag, Name, Description, Data Type, load Priority, Configuration Status, operating Type, and Demand Factor. Info ID Enter a unique alphanumeric ID with a maximum of 25 characters. PowerStation automatically assigns a unique ID to each charger. The default IDs consist of the word charger plus an integer, starting with the number one and increasing as the number of chargers increases. The default ID (Charger) for chargers can be changed from the Defaults menu in the menu bar or from the Project View. Operation Technology, Inc ETAP PowerStation 4.0

27 Charger AC Bus and DC Bus These are the IDs of the connecting buses for the charger. If the terminal is not connected to any bus, a blank entry will be shown for the bus ID. To connect or reconnect a charger to a bus, select a bus from the list box. The one-line diagram will be updated to show the new connection after you click on OK. Note that you can connect the terminals of the charger to AC & DC buses that reside in the same view where it resides, or you can connect to buses that reside in other views by connecting the external and internal pins of the composite networks. You cannot connect to buses that are in the Dumpster. If a charger is connected to a bus through a number of protective devices, reconnection of the charger to a new bus in this editor will reconnect the last existing protective device to the new bus, as shown below where Charger1 is reconnected from Bus10 to Bus4. Next to the bus ID, PowerStation displays the nominal kv of the AC terminal bus and nominal V of the DC terminal bus for your convenience. In/Out of Service Operating conditions of a charger can be selected by choosing either the In Service or Out of Service option. The properties of an Out of Service charger can be edited like an In Service charger; however, an Out of Service charger will not be included in any system studies. When Continuity Check is activated, an Out of Service charger automatically becomes dimmed in the one-line diagram. Note that the In/Out of Service option is an engineering property and is independent of the configuration status. Therefore, you can set a charger to be In Service for the Base Data and Out of Service in Revision Data. Configuration Select the operating status of the charger(s) for the selected configuration status from the list box. Options for operating status include: Continuous Continuously operating load Intermittent Intermittently operating load Spare Spare load (no short-circuit contribution) Depending on the demand factor specified for each operating status, the actual loading of the charger is determined for AC load flow studies. Operation Technology, Inc ETAP PowerStation 4.0

28 Charger Note that status is not a part of the charger engineering properties. For this reason, the name of the configuration status is shown, indicating the charger status under the specific configuration, i.e., you can have a different operating status under each configuration. In the following example, status of a charger is shown to be Continuous under Normal configuration and Spare under Emergency configuration. Connection 3-Phase For this release of Power Station the 3-phase connection type cannot be selected by the user, but it used by PowerStation to model the device. 1-Phase For this release of Power Station the 1-phase connection type cannot be selected by the user. Equipment FDR Tag Enter the feeder tag in this field, up to 25 alphanumeric characters. Name Enter equipment name, up to 50 alphanumeric characters. Description Enter equipment description, up to 100 alphanumeric characters. Data Type This field provides a convenient way to track data entry. Select one of the data types (such as estimate, typical, vendor, final, etc.) from the list box. As the data is updated, this field can be changed to reflect the source of the latest data. There are a total of 10 load types and you can change their name from the Project menu under Settings and Data Type. Priority Select the load priority of this charger from the list box. This field can be used for load priority, operating priority, load shedding priority, etc. Ten different priorities are provided to select from. Priority names can be changed from the Project menu under Settings and Load Priority. Type Select operating type as charger or converter. Operation Technology, Inc ETAP PowerStation 4.0

29 Charger Demand Factor Modify the demand factors for Continuous, Intermittent, and Spare status in the provided entry fields. Demand factor is the amount of time the charger is actually operating. Demand factors affect the calculation of the charger load. Load kw = Rated kva * PF * % Loading * Demand Factor Load kvar = Rated kva * RF * % Loading * Demand Factor Where the PF & RF are rated power factor and reactive factor of the charger. Demand factors for Continuous, Intermittent, and Spare status have a range from 0% to 100%. Since demand factors are a part of engineering properties, PowerStation uses the same factors for all configurations Rating Page In this page, you can specify the charger ratings and DC voltage limits, and select the charger operating mode. AC Rating kva Enter the kva rating of the charger. Click on the kva/mva button to choose from kva and MVA units for entering and displaying kw/mw and kvar/mvar data of the charger. When the value of the kva is modified, the rated DC power, rated DC full load current, rated AC full load current and the operating load and losses for all loading categories of the charger are recalculated. kv Enter the rated AC voltage of the charger in kv. The rated AC full load current is calculated based on this value. Operation Technology, Inc ETAP PowerStation 4.0

30 Charger FLA Enter the rated AC full load current of the charger in amperes. When the rated AC full load current is modified, the rated kva, rated efficiency and the operating load and losses for all loading categories of the charger are recalculated. PowerStation limits the entry of rated AC full load current in such a way that the rated efficiency cannot exceed 100% or be below 10%. % Eff Enter the rated efficiency of the charger in percent. When the efficiency is modified, the rated kva, rated AC full load current, and the operating load and losses for all loading categories of the charger are recalculated. Efficiency cannot exceed 100% or be below 10%. It defaults to 90%. % PF Enter the rated power factor of the charger in percent. When the power factor is modified, the rated kva, rated AC full load current, rated firing angle, and the operating load and losses for all loading categories of the charger are recalculated. Power factor cannot exceed 100%. It defaults to 85%. Alpha The rated firing angle of the charger is calculated based on the rated power factor is displayed here in degrees. DC Rating kw Enter the DC kw rating of the charger. When the rated kw is modified, the rated kva, rated AC full load current, rated DC full load current, and the operating load and losses for all loading categories of the charger are recalculated. V Enter the rated DC voltage of the charger in volts. The rated DC full load current is calculated. FLA Enter the rated DC full load current of the charger in amperes. When the rated DC full load current is modified, the rated DC kw, rated kva, rated AC full load current, and the operating load and losses for all loading categories of the charger are recalculated. Imax Enter the maximum DC output current of the charger in percentage of the rated DC full load current. The charger becomes a constant current source when DC load current exceeds the Imax in DC load flow study. PowerStation uses Imax as the constant current source value. Imax defaults to 150%. Operating Mode Constant Voltage When you select this option, a constant voltage is used as the voltage source value of the charger in DC load flow studies. The constant voltage Vdc is calculated as follows: Select Float: Vdc = V * %Vfloat / 100 Select Equalize: Vdc = V * %Veq / 100 Operation Technology, Inc ETAP PowerStation 4.0

31 Charger Fixed Firing Angle When you select this radio button, the voltage source value of the charger in DC load flow studies is calculated using a fixed firing angle (Alpha) and the input bus voltage. DC Voltage Vdc Displays the voltage source value of the charger in volts. Max Limit When Equalize is selected, the Max. Limit Equalize voltage threshold of the charger in percent or volts can be entered. PowerStation limits the entry of Vequalize in such a way that Vequalize cannot exceed the Max. Limit threshold. When Float is selected, the Max. Limit Float voltage threshold of the charger in percent or volts can be entered. PowerStation limits the entry of Vfloat in such a way that Vfloat cannot exceed the Max. Limit threshold. Min Limit When Equalize is selected, the Min. Limit Equalize voltage threshold of the charger in percent or volts can be entered. PowerStation limits the entry of Vequalize in such a way that Vequalize cannot be less than the Min. Limit threshold. When Float is selected, the Min. Limit Float voltage threshold of the charger in percent or volts can be entered. PowerStation limits the entry of Vfloat in such a way that Vfloat cannot be less than the Min. Limit threshold Loading Page In this page, specify loading percent of the charger for all loading categories, and view updated AC and DC operating load from DC load flow studies. Operation Technology, Inc ETAP PowerStation 4.0

32 Charger Loading Category Loading Category This section is used to assign a percent loading to each one of the ten loading categories for the loading of this charger, i.e., each charger can be set to have a different operating loading level for each loading category. To edit the values of the percent loading, click on any one of the edit fields under the % Loading column. Note that you can select any of these loading categories when conducting AC load flow studies. To edit the loading category names, select Loading Category from the Project menu. Operating Load AC Updated AC operating load of the charger in kw/kvar or MW/Mvar is displayed here when Update Operating Load is checked in the DC Load Flow Study Case Editor. DC Updated DC operating load of the charger in kw or MW is displayed here when Update Operating Load is checked in the DC Load Flow Study Case Editor SC Page Within the SC page, select the charger short-circuit model, specify AC system short-circuit capacity and impedance of the charger, and the grounding data. SC Contribution to DC System Fixed SC Contribution When you select the Fixed SC Contribution option, the charger is treated as an ideal constant current source (K * FLAdc / 100) in DC short-circuit studies. Operation Technology, Inc ETAP PowerStation 4.0

33 Charger Based on AC System Z When you select the Based on AC System Z option, the charger is treated as a constant voltage source in DC short-circuit studies. K Enter the short-circuit multiplication factor in percent. PowerStation uses this value to calculate the constant current source value for DC short-circuit studies. The multiplication factor defaults to 150%. Isc (k*fladc) The constant current source (short-circuit contribution) of the charger is calculated and displayed here in amperes. AC System Z MVAsc When you enter the AC system short-circuit capacity of the charger in MVA, the system short-circuit impedance, including %R and %X in 100MVA base, are calculated. X/R Enter the X/R ratio of the system short-circuit impedance for calculation of the %R and %X. % R Enter the resistance R of the system short-circuit impedance in percent (100 MVA base). When R is modified, the X/R ratio of the system short-circuit impedance is recalculated. % X Enter the reactance X of the system short-circuit impedance in percent (100MVA base). When X is modified, the X/R ratio of the system short-circuit impedance and the system short-circuit capacity are recalculated. DC Grounding Grounded When you select the Grounded option, the charger is grounded. Rg Enter the grounding resistance of the charger in ohms. Operation Technology, Inc ETAP PowerStation 4.0

34 Charger Harmonic Page Within the Harmonic page, specify the harmonic source type of the charger and view the harmonic source waveform and frequency spectrum of the charger. Use Library Data Get harmonic source data of the charger from the Harmonic Library. Calculate Based on Parameters Calculate the harmonic source data based on the parameters of the charger. Parameters Enter the parameters of the charger for calculation of the harmonic source data. Harmonic Library Library Button Click on the Library button to pick up the charger harmonic source data including harmonic source type, device type, and manufacture/model. Operation Technology, Inc ETAP PowerStation 4.0

35 Charger Type This area displays the charger harmonic source type picked up from the Harmonic Library. Manufacturer This area displays the charger device type picked up from the Harmonic Library. Model This area displays the charger manufacturer/model picked up from the Harmonic Library. Waveform Displays the harmonic source waveform of the charger. Spectrum Displays the harmonic frequency spectrum of the charger. Print Buttons Click on the Print buttons to print out the waveform or frequency spectrum of the charger Reliability Page Reliability Parameters λ A Active Failure Rate in number of failures per year. The Active Failure Rate is associated with the component failure mode that causes the operation of the primary protection zone around the failed component and can therefore cause the removal of other healthy components and branches from service. It should be noted that the failed component itself (and those components that are directly connected to it) can be restored to service only after repair or replacement of the failed component. Operation Technology, Inc ETAP PowerStation 4.0

36 Charger µ The Mean Repair Rate in number of repairs per year is automatically calculated and based on MTTR (µ = 8760/MTTR). FOR The Forced Outage Rate (i.e., unavailability) calculated based on MTTR, λ A (FOR = MTTR/(MTTR+8760/λ A ). MTTF The Mean Time To Failure in years is automatically calculated and based on λ A (MTTF = 1.0/λ A ). MTTR The Mean Time To Repair in hours is the expected time necessary for a crew to repair a failed component and/or restore the system to its normal operating state. Alternative Supply Switching Time This is the time in hours necessary to isolate a failure. It is the period of time starting from the moment a switching operation is requested until the operation is completed. Replacement Available Check this box to enable r P r P It is the replacement time in hours needed to replace a failed component with a spare. Library Library Click on the Library button to bring up the Library Quick Pick Editor for reliability data. Interruption Cost Load Sector Select the Load Sector name for the load. The Load Sector information is used to obtain interruption cost information from the Reliability Cost library in order to calculate Expected Interruption Costs. Operation Technology, Inc ETAP PowerStation 4.0

37 Charger Remarks Page User-Defined Info These fields allow you to keep track of extra data associated with this component. The names of the User-Defined (UD) fields can be changed from the Settings option in the Project menu in the Menu bar. UD Field 1 (Eq. Ref.) This is a number field with the default name Eq. Ref. You can change the name of this field and enter the equipment reference number or any other number here, up to five digits. UD Field 2 (Last Maint.) This is an alphanumeric field with the default name Last Maint. You can change the name of this field and enter any extra data for this element here, up to 12 alphanumeric characters. UD Field 3 (Next Maint.) This is an alphanumeric field with the default name Next Maint. You can change the name of this field and enter any extra data for this element here, up to 12 alphanumeric characters. UD Field 4 (Tests Req.) This is an alphanumeric field with the default name Tests Req. You can change the name of this field and enter any extra data for this element here, up to 12 alphanumeric characters. UD Field A5 This is an alphanumeric field with the default name UD Field A5. You can change the name of this field and enter any extra data for this element here, up to 12 alphanumeric characters. UD Field A6 This is an alphanumeric field with the default name UD Field A6. You can change the name of this field and enter any extra data for this element here, up to 12 alphanumeric characters. Operation Technology, Inc ETAP PowerStation 4.0

38 Charger UD Field A7 This is an alphanumeric field with the default name UD Field A7. You can change the name of this field and enter any extra data for this element here, up to 18 alphanumeric characters. Drawing/Diagram One-Line Enter the name or ID of a one-line drawing or diagram associated with this element, up to 50 alphanumeric characters. An example is the manufacturer diagram or specifications for this element. Reference Enter the name or ID of a reference drawing or document for this element, up to 50 alphanumeric characters. Manufacturer Name Enter the manufacturer s name for this element here, up to 25 alphanumeric characters. Purchasing Date Enter the date of purchase for this element here, up to 8 alphanumeric characters Comment Page Enter any extra data or comments regarding condition, maintenance, tests, or studies, associated with this element. This field can be up to 64kb with a default size of 4kb. To increase the size of this field, refer to the entries in the ETAPS.INI file. When entering information in the page, use Ctrl+Enter to start a new paragraph. Standard keys such as Ctrl+X, Ctrl+C, and Ctrl+V can be used to cut, copy, and paste information. Operation Technology, Inc ETAP PowerStation 4.0

39 Inverter 10.4 Inverter The properties associated with inverters of the electrical system can be entered in this editor. The DC Inverter Editor contains the following eight pages of information: Info Page Rating Page Loading Page Duty Cycle Page Harmonic Page Reliability Page Remarks Page Comment Page Info Page Within the Info page, specify the ID, connected buses, In/Out of Service, Equipment FDR (feeder) Tag, Name, Description, Data Type, Load Priority, and Status. Info ID Enter a unique alphanumeric ID with a maximum of 25 characters. PowerStation automatically assigns a unique ID to each inverter. The default IDs consist of the word Inv plus an integer, starting with the number one and increasing as the number of inverters increases. The default ID (Inv) for inverters can be changed from the Defaults menu in the menu bar or from the Project View. Operation Technology, Inc ETAP PowerStation 4.0

40 Inverter DC Bus and AC Bus These are the IDs of the connecting buses for the inverter. If the terminal is not connected to any bus, a blank entry will be shown for the bus ID. To connect or reconnect an inverter to a bus, select a bus from the list box. The one-line diagram will be updated to show the new connection after you click on OK. Note that you can connect the terminals of the inverter to AC & DC buses that reside in the same view where it resides, or you can connect to buses that reside in other views by connecting the external and internal pins of the composite networks. You cannot connect to buses that are in the Dumpster. If an inverter is connected to a bus through a number of protective devices, reconnection of the inverter to a new bus in this editor will reconnect the last existing protective device to the new bus, as shown below where Inv1 is reconnected from DCBus10 to DCBus4. Next to the bus ID, PowerStation displays the nominal voltage of DC terminal buses and nominal kv of AC terminal bus for your convenience. In/Out of Service Operating conditions of an inverter can be selected by choosing either the In Service or Out of Service option. The properties of an Out of Service inverter can be edited like an In Service inverter; however, an Out of Service inverter will not be included in any system studies. When Continuity Check is activated, an Out of Service inverter automatically becomes dimmed in the one-line diagram. Note that the In/Out of Service option is an engineering property and is independent of the configuration status. Therefore, you can set an inverter to be In Service for the Base Data and Out of Service in Revision Data. Configuration Select the operating status of the inverter for the selected configuration status from the list box. Options for operating status include: Continuous Continuously operating load Intermittent Intermittently operating load Spare Spare load (no short-circuit contribution) Depending on the demand factor specified for each operating status, the actual loading of the inverter is determined for DC load flow studies. Operation Technology, Inc ETAP PowerStation 4.0

41 Inverter Note that status is not a part of the inverter engineering properties. For this reason, the name of the configuration status is shown, indicating the inverter status under the specific configuration, i.e., you can have a different operating status under each configuration. In the following example, status of an inverter is shown to be Continuous under Normal configuration and Spare under Emergency configuration. Equipment FDR Tag Enter the feeder tag in this field, up to 25 alphanumeric characters. Name Enter equipment name, up to 50 alphanumeric characters. Description Enter equipment description, up to 100 alphanumeric characters. Data Type This field provides a convenient way to track data entry. Select one of the data types (such as estimate, typical, vendor, final, etc.) from the list box. As the data is updated, this field can be changed to reflect the source of the latest data. There are a total of 10 load types and you can change their name from the Project menu under Settings and Data Type. Priority Select the load priority of this inverter from the list box. This field can be used for load priority, operating priority, load shedding priority, etc. Ten different priorities are provided to select from. Priority names can be changed from the Project menu under Settings and Load Priority. Output Connection Phase Select the phase connection type of the inverter from the list box. If a single phase connection is set in the AC terminal, the connection pin on the AC side is disabled. Demand Factor Modify the demand factors for Continuous, Intermittent, and Spare status in the provided entry fields. Demand factor is the amount of time the inverter is actually operating. Demand factor affects the following calculations: Operating kw = Rated kw * % Loading * Demand Factor Operation Technology, Inc ETAP PowerStation 4.0

42 Inverter Demand factors for Continuous, Intermittent, and Spare status have a range from 0% to 100%. Since demand factors are a part of engineering properties, PowerStation uses the same factors for all configurations Rating Page In this page, you can specify the inverter ratings, select the AC Output Voltage model, and display the AC short-circuit current of the inverter. DC Rating kw Enter the kw rating of the inverter. Click on the kw/mw button to choose between kw and MW units for entering rated DC power and displaying data for the inverter. When kw rating is modified, the rated AC kva, rated DC full load current, rated AC full load current, and the operating load and losses for all loading categories of the inverter are recalculated. FLA Enter the rated DC full load current of the inverter in amperes. When the rated DC full load current is modified, the rated DC power, rated efficiency, and the operating load and losses for all loading categories of the inverter are recalculated. PowerStation limits the entry of rated DC full load current in such a way that the rated efficiency cannot exceed 100% or be below 10%. Imax Enter the maximum DC input current of the inverter in percentage of the rated DC full load current. Imax defaults to 150%. Eff Enter the rated efficiency of the inverter in percent. When the efficiency is modified, the rated DC power, rated DC full load current, and the DC operating load and losses for all loading categories of the inverter are recalculated. Efficiency cannot exceed 100% or be below 10%. It defaults to 90%. Operation Technology, Inc ETAP PowerStation 4.0

43 Inverter V Enter the rated DC voltage of the inverter in volts. The rated DC full load current is calculated from this value. Vmax Enter the maximum DC voltage of the inverter in percent of the rated voltage. It defaults to 110%. Vmin Enter the minimum DC voltage of the inverter in percent of the rated voltage. It defaults to 90%. AC Rating kva Enter the rated AC kva of the inverter. When the rated AC kva is modified, the rated AC full load current, rated DC power, rated DC full load current, and the operating load and losses for all loading categories of the inverter are recalculated. FLA Enter the rated AC full load current of the inverter in amperes. When the rated AC full load current is modified, the rated DC power, rated AC kva, rated DC full load current, and the operating load and losses for all loading categories of the inverter are recalculated. kv Enter the rated AC voltage of the inverter in volts. The rated AC full load current is calculated. PF Enter the rated power factor of the inverter in percent. When the power factor is modified, the rated DC power, rated DC full load current, and the operating load and losses for all loading categories of the inverter are recalculated. PowerStation limits the entry of power factor in such a way that it cannot exceed Max. PF or be below Min. PF. It defaults to 85%. Min. PF Enter the minimum power factor in percent. It defaults to 80%. Max. PF Enter the maximum power factor in percent. It defaults to 100%. SC Contribution to AC System K Enter the short-circuit multiplication factor in percent. PowerStation uses this value to calculate the short-circuit current contribution from the inverter for AC short-circuit studies. The multiplication factor defaults to 150%. Isc The short-circuit current contribution from the inverter (Isc = K * FLAac / 100) is calculated and displayed here in amperes. Operation Technology, Inc ETAP PowerStation 4.0

44 Inverter AC Output Voltage Regulate Vac When you select the Regulate Vac option, the AC output voltage can be regulated to a value other than the rated AC voltage of the inverter. The regulated voltage is calculated as follows: Vac = kv * % Adjustment / 100 in kv otherwise, the AC output voltage is regulated at the rated value. % Enter the percentage value (% Adjustment) for the calculation of the regulated AC output voltage Vac. Vac The regulated AC output voltage of the inverter is calculated and displayed here in kv Loading Page In this page, specify the loading percent of the inverter for all loading categories, and view updated DC and AC operating load from AC load flow studies. Loading Category Loading Category This section is used to assign a percent loading to each one of the ten loading categories for the loading of this inverter, i.e., each inverter can be set to have a different operating loading level for each loading category. To edit the values of the percent loading, click on any one of the edit fields under the % Loading column. Note that you can select any of these loading categories when conducting AC load flow studies. To edit the loading category names, select Loading Category from the Project menu. Operation Technology, Inc ETAP PowerStation 4.0

45 Inverter Operating Load AC This area displays the updated AC operating load of the inverter in kw/kvar or MW/Mvar when the Update Operating Load is checked in the AC Load Flow Study Case Editor. DC This area displays the updated DC operating load of the inverter in kw or MW when Update Operating Load is checked in the AC Load Flow Study Case Editor Duty Cycle Page Within the Duty Cycle page, specify the duty cycle category and load profile for each duty cycle. PowerStation displays the load profile for random and non-random loads for viewing and printing. The data in this page are used in battery sizing studies. Duty Cycle This section is used to specify load profile for each one of the five duty cycle categories Duty Cycle Category Select a duty cycle category from the list box and view the load profile for it in this page. Each load can have up to five duty cycle categories with independent load profiles. You can name the duty cycle categories from the Project menu bar. Load Profile To add a load to the load profile, click on either the Ins or Add button, or press the Insert key to create a row in the load profile table. Each row represents a segment of the load profile for this duty cycle. To edit the load profile, click on the button under the Active column, and this segment of load will be considered in studies. Click on the button under the Random column, and this segment of load will be treated as a random load in studies. Click on the field under the Type column and pick one of the seven types in the list box. Enter a load name, current in amperes, start time in seconds, and duration in seconds Operation Technology, Inc ETAP PowerStation 4.0

46 Inverter for this segment of load. After the data of a row is entered, this segment of load curve will be drawn on the Non-Random or Random window. To delete a row of data, highlight the row by clicking the number of the row, then click on the Del button or press the Delete key. Click on either the <-Print or Print-> button, and the displayed load profile curve (random & nonrandom) for the selected duty cycle will be printed out. Note that you can select any of the duty cycle categories when conducting battery sizing studies. To edit the loading category names, select Duty Cycle Category from the Project menu Harmonic Page Within the Harmonic page, specify the harmonic source type of the inverter, and view the harmonic source waveform and frequency spectrum of the inverter. Use Library Data Get the harmonic source data of the inverter from the Harmonic Library. Calculate Based on Parameters Calculate the harmonic source data based on the parameters of the inverter. Voltage Regulation Parameters Enter the parameters of the inverter for the calculation of the harmonic source data. Harmonic Library Library Button Click on the Library button to pick up the inverter harmonic source data including harmonic source type, device type, and manufacture/model. Operation Technology, Inc ETAP PowerStation 4.0

47 Inverter Type This area displays the inverter harmonic source type picked up from the Harmonic Library. Manufacturer This area displays the inverter device type picked up from the Harmonic Library. Model This area displays the inverter Manufacturer/model picked up from the Harmonic Library. Waveform This area displays the harmonic source waveform of the inverter. Spectrum This area displays the harmonic frequency spectrum of the inverter. Print Buttons Click on the Print buttons to print out the waveform or frequency spectrum of the inverter. Operation Technology, Inc ETAP PowerStation 4.0

48 Inverter Reliability Page Reliability Parameters λ A Active Failure Rate in number of failures per year. The Active Failure Rate is associated with the component failure mode that causes the operation of the primary protection zone around the failed component and can therefore cause the removal of other healthy components and branches from service. It should be noted that the failed component itself (and those components that are directly connected to it) could be restored to service only after repair or replacement of the failed component. λ P Passive Failure Rate in number of failures per year. The Passive Failure Rate is associated with a component failure mode that does not cause the operation of the primary protection zone around the failed component, and therefore, does not have an impact on the remaining healthy components and branches of the system. Repairing or replacing the failed component will restore service. µ The Mean Repair Rate in number of repairs per year is automatically calculated and based on MTTR (µ = 8760/MTTR). FOR It is the Forced Outage Rate (i.e., unavailability) calculated based on MTTR, λ A (FOR = MTTR/(MTTR+8760/λ A ). MTTF The Mean Time To Failure in years is automatically calculated and based on λ A (MTTF = 1.0/λ A ). MTTR The Mean Time To Repair in hours is the expected time necessary for a crew to repair a failed component and/or restore the system to its normal operating state. Operation Technology, Inc ETAP PowerStation 4.0

49 Inverter Alternative Supply Switching Time This is the time in hours necessary to isolate a failure. It is the period of time starting from the moment a switching operation is requested until the operation is completed. Replacement Available Check this box to enable r P r P It is the replacement time in hours needed to replace a failed component with a spare. Library Library Click on the Library button to bring up the Library Quick Pick Editor for reliability data Remarks Page User-Defined Info These fields allow you to keep track of extra data associated with this component. The names of the User-Defined (UD) fields can be changed from the Settings option in the Project menu in the Menu bar. UD Field 1 (Eq. Ref.) This is a number field with the default name Eq. Ref. You can change the name of this field and enter the equipment reference number or any other number here, up to five digits. Operation Technology, Inc ETAP PowerStation 4.0

ETAP PowerStation 4.0

ETAP PowerStation 4.0 ETAP PowerStation 4.0 User Guide Copyright 2001 Operation Technology, Inc. All Rights Reserved This manual has copyrights by Operation Technology, Inc. All rights reserved. Under the copyright laws, this

More information

ENGINEERING DATA SUBMITTAL For the Interconnection of Generation System

ENGINEERING DATA SUBMITTAL For the Interconnection of Generation System WHO SHOULD FILE THIS SUBMITTAL: Anyone in the final stages of interconnecting a Generation System with Nodak Electric Cooperative, Inc. This submittal shall be completed and provided to Nodak Electric

More information

GENERATOR INTERCONNECTION APPLICATION Category 5 For All Projects with Aggregate Generator Output of More Than 2 MW

GENERATOR INTERCONNECTION APPLICATION Category 5 For All Projects with Aggregate Generator Output of More Than 2 MW GENERATOR INTERCONNECTION APPLICATION Category 5 For All Projects with Aggregate Generator Output of More Than 2 MW ELECTRIC UTILITY CONTACT INFORMATION Consumers Energy Interconnection Coordinator 1945

More information

Voltage Source Converter Modelling

Voltage Source Converter Modelling Voltage Source Converter Modelling Introduction The AC/DC converters in Ipsa represent either voltage source converters (VSC) or line commutated converters (LCC). A single converter component is used to

More information

State of North Dakota Engineering data submittal Page 1 For interconnection of distributed generation to Otter Tail Power Company

State of North Dakota Engineering data submittal Page 1 For interconnection of distributed generation to Otter Tail Power Company Engineering data submittal Page 1 WHO SHOULD FILE THIS SUBMITTAL : Anyone in the final stages of in terconnecting a Generation System with Otter Tail Power. This submittal shall be completed and provided

More information

2.1 Performance Standards The UPS is designed with the applicable sections of UL, CUL, and ISO The UPS has UL and CUL listing.

2.1 Performance Standards The UPS is designed with the applicable sections of UL, CUL, and ISO The UPS has UL and CUL listing. 1.0 Scope This document describes the specification for Toshiba 1000 Series On-Line Uninterruptible Power System (UPS). The UPS will supply a computer grade AC output sine wave which is unaffected by the

More information

Harmonic Filters for Power Conversion Equipment (Drives, rectifiers, etc) Effects of Harmonics IEEE Solutions

Harmonic Filters for Power Conversion Equipment (Drives, rectifiers, etc) Effects of Harmonics IEEE Solutions Harmonic Filters for Power Conversion Equipment (Drives, rectifiers, etc) Effects of Harmonics IEEE - 519 Solutions Harmonics Tutorial 1 Power Conversion Equipment can save energy and control motors, heaters,

More information

InfraStruXure Manager v4.x Addendum: Building Management System Integration

InfraStruXure Manager v4.x Addendum: Building Management System Integration InfraStruXure Manager v4.x Addendum: Building Management System Integration Introduction This addendum explains the integration of the APC InfraStruXure Manager Appliance with a Building Management System

More information

TOSHIBA International Corp

TOSHIBA International Corp TOSHIBA International Corp GUIDE SPECIFICATIONS THREE PHASE UNINTERRUPTIBLE POWER SYSTEM TOSHIBA 4200FA 30 kva CT Internal Battery UPS GUIDE SPECIFICATIONS 1 (30 kva CT) 1.0 SCOPE 1.1 System This specification

More information

Introduction to Simulation of Verilog Designs. 1 Introduction. For Quartus II 13.0

Introduction to Simulation of Verilog Designs. 1 Introduction. For Quartus II 13.0 Introduction to Simulation of Verilog Designs For Quartus II 13.0 1 Introduction An effective way of determining the correctness of a logic circuit is to simulate its behavior. This tutorial provides an

More information

Short-Circuit Current Calculations

Short-Circuit Current Calculations Basic Point-to-Point Calculation Procedure Step. Determine the transformer full load amps (F.L.A.) from either the nameplate, the following formulas or Table : Multiplier = 00 *% Z transformer Step 2.

More information

Features. Description. Table 1: Device summary Order code Marking Package Packing STW48N60M2-4 48N60M2 TO247-4 Tube

Features. Description. Table 1: Device summary Order code Marking Package Packing STW48N60M2-4 48N60M2 TO247-4 Tube N-channel 600 V, 0.06 Ω typ., 42 A MDmesh M2 Power MOSFET in a TO247-4 package Datasheet - production data Features Order code V DS @ T Jmax. R DS(on)max. I D STW48N60M2-4 650 V 0.07 Ω 42 A Excellent switching

More information

Level 6 Graduate Diploma in Engineering Electrical Energy Systems

Level 6 Graduate Diploma in Engineering Electrical Energy Systems 9210-114 Level 6 Graduate Diploma in Engineering Electrical Energy Systems Sample Paper You should have the following for this examination one answer book non-programmable calculator pen, pencil, ruler,

More information

TABLE OF CONTENT

TABLE OF CONTENT Page : 1 of 34 Project Engineering Standard www.klmtechgroup.com KLM Technology #03-12 Block Aronia, Jalan Sri Perkasa 2 Taman Tampoi Utama 81200 Johor Bahru Malaysia TABLE OF CONTENT SCOPE 3 REFERENCES

More information

APPENDIX B: Generation Interconnection Application Form

APPENDIX B: Generation Interconnection Application Form 2 APPENDIX B: Generation Interconnection Application Form WHO SHOULD FILE THIS APPLICATION: Anyone expressing interest to install generation which will interconnect with Xcel Energy (Local electric utility)

More information

Poly Canyon Cogeneration System

Poly Canyon Cogeneration System Poly Canyon Cogeneration System By Jaideep Gill Senior Project Electrical Engineering Department California Polytechnic State University San Luis Obispo 2011 ii Table of Contents Section Acknowledgements

More information

GENERATOR INTERCONNECTION APPLICATION FOR ALL PROJECTS WITH AGGREGATE GENERATOR OUTPUT OF MORE THAN 2 MW

GENERATOR INTERCONNECTION APPLICATION FOR ALL PROJECTS WITH AGGREGATE GENERATOR OUTPUT OF MORE THAN 2 MW GENERATOR INTERCONNECTION APPLICATION FOR ALL PROJECTS WITH AGGREGATE GENERATOR OUTPUT OF MORE THAN 2 MW Electric Utility Contact Information DTE Energy Interconnection Coordinator One Energy Plaza, SB

More information

7/15/2002 PP.AFD.08 1 of 28

7/15/2002 PP.AFD.08 1 of 28 Power Quality Considerations When Applying Adjustable Frequency Drives Explanations and Various Countermeasures 7/15/2002 PP.AFD.08 1 of 28 Power Quality Why the Renewed Interest in Power Quality? Copy

More information

Introduction to Simulation of Verilog Designs Using ModelSim Graphical Waveform Editor. 1 Introduction. For Quartus II 13.1

Introduction to Simulation of Verilog Designs Using ModelSim Graphical Waveform Editor. 1 Introduction. For Quartus II 13.1 Introduction to Simulation of Verilog Designs Using ModelSim Graphical Waveform Editor For Quartus II 13.1 1 Introduction This tutorial provides an introduction to simulation of logic circuits using the

More information

Short-Circuit Analysis IEC Standard Operation Technology, Inc. Workshop Notes: Short-Circuit IEC

Short-Circuit Analysis IEC Standard Operation Technology, Inc. Workshop Notes: Short-Circuit IEC Short-Circuit Analysis IEC Standard 1996-2009 Operation Technology, Inc. Workshop Notes: Short-Circuit IEC Purpose of Short-Circuit Studies A Short-Circuit Study can be used to determine any or all of

More information

ETAP PowerStation. Electrical Transient Analyzer Program. ETAP PowerStation. Short Circuit Analysis. ANSI Standard 3-Phase Fault Currents

ETAP PowerStation. Electrical Transient Analyzer Program. ETAP PowerStation. Short Circuit Analysis. ANSI Standard 3-Phase Fault Currents Page: 1 Electrical Transient Analyzer Program Short Circuit Analysis ANSI Standard 3-Phase Fault Currents Number of Buses: Swing Generator Load Total 1 0 4 5 Number of Branches: XFMR2 XFMR3 Reactor Line/Cable

More information

Advanced Power Quality Analysis

Advanced Power Quality Analysis Advanced Power Quality Analysis Using PC s to Solve Harmonic Problems Our Circuit 3 5 1 2 Source Transmission Line 4 1 Our Transmission Line... TRANSMISSION LINE: 500 kv 50 miles (2) - "CHUKAR" - 1,780

More information

CHAPTER 5 POWER QUALITY IMPROVEMENT BY USING POWER ACTIVE FILTERS

CHAPTER 5 POWER QUALITY IMPROVEMENT BY USING POWER ACTIVE FILTERS 86 CHAPTER 5 POWER QUALITY IMPROVEMENT BY USING POWER ACTIVE FILTERS 5.1 POWER QUALITY IMPROVEMENT This chapter deals with the harmonic elimination in Power System by adopting various methods. Due to the

More information

Var Control. Adding a transformer and transformer voltage regulation. engineers loadflow program. The control system engineers loadflow.

Var Control. Adding a transformer and transformer voltage regulation. engineers loadflow program. The control system engineers loadflow. November 2012 Adding a transformer and transformer voltage regulation to the control system engineers loadflow program The control system engineers loadflow program The loadflow program used by this website

More information

ACS 1000 Transformer Failure Investigation. Nathan Schachter, Peng

ACS 1000 Transformer Failure Investigation. Nathan Schachter, Peng Investigation Nathan Schachter, Peng Objectives Learn what happened Explain why it happened Discuss solutions Suggest remedies so it does not happen again Prevention is the key to success 2 ACS 1000 VFD

More information

16B2011B1 EASY HARMONICS USER MANUAL

16B2011B1 EASY HARMONICS USER MANUAL 6B0B Issued on 03/08/09 R.00 English This manual is integrant and essential to the product. Carefully read the instructions contained herein as they provide important hints for use and maintenance safety.

More information

Low Pass Harmonic Filters

Low Pass Harmonic Filters Exclusive e-rated Provider PRODUCT SHEET HARMITIGATOR TM Low Pass Harmonic Filters A solution for electrical distribution systems that require stable, reliable power, characterized by unparalleled power

More information

Emergency Generator Sizing and Motor Starting Analysis

Emergency Generator Sizing and Motor Starting Analysis Emergency Generator Sizing and Motor Starting Analysis Mukesh Kumar Kirar, Ganga Agnihotri Abstract This paper investigates the preliminary sizing of generator set to design electrical system at the early

More information

Owner/Customer Name: Mailing Address: City: County: State: Zip Code: Phone Number: Representative: Address: Fax Number:

Owner/Customer Name: Mailing Address: City: County: State: Zip Code: Phone Number: Representative:  Address: Fax Number: Interconnection of a Customer-Owned Renewable Generation System of Greater than 100 KW and Less than or Equal to 1 MW to the LCEC Electric Grid Tier 3 Application and Compliance Form Instructions: Complete

More information

Electric Power Quality: Voltage Sags Momentary Interruptions

Electric Power Quality: Voltage Sags Momentary Interruptions Slide 1 Electric Power Quality: Voltage Sags Momentary Interruptions Ward Jewell Wichita State University ward.jewell@wichita.edu Slide 2 Power Quality Events Voltage sags Outages/interruptions Voltage

More information

NJWA - Harmonics and Drives Proper System Design

NJWA - Harmonics and Drives Proper System Design Session Goals Larry Stanley, Sr. Regional Business Development Engineer, Water Segment Matthew LaRue, ABB Drives Product Manager Philadelphia District, Baldor of Philadelphia NJWA - Harmonics and Drives

More information

Agilent ParBERT Measurement Software. Fast Eye Mask Measurement User Guide

Agilent ParBERT Measurement Software. Fast Eye Mask Measurement User Guide S Agilent ParBERT 81250 Measurement Software Fast Eye Mask Measurement User Guide S1 Important Notice Agilent Technologies, Inc. 2002 Revision June 2002 Printed in Germany Agilent Technologies Herrenberger

More information

Embedded Generation Connection Application Form

Embedded Generation Connection Application Form Embedded Generation Connection Application Form This Application Form provides information required for an initial assessment of the Embedded Generation project. All applicable sections must be completed

More information

OpenDSS PVSystem Element Model Version 1

OpenDSS PVSystem Element Model Version 1 OpenDSS PVSystem Element Model Version 1 Wednesday, February 23, 2011 Figure 1 shows a schematic diagram of the PVSystem device model recently implemented into OpenDSS version 7.4.1 at Build 28. This model

More information

Introduction to Simulation of Verilog Designs. 1 Introduction. For Quartus II 11.1

Introduction to Simulation of Verilog Designs. 1 Introduction. For Quartus II 11.1 Introduction to Simulation of Verilog Designs For Quartus II 11.1 1 Introduction An effective way of determining the correctness of a logic circuit is to simulate its behavior. This tutorial provides an

More information

Harmonic Study in Low Voltage Distribution Network in a Real Time Foundry Industry

Harmonic Study in Low Voltage Distribution Network in a Real Time Foundry Industry I J C T A, 9(37) 2016, pp. 769-781 International Science Press Harmonic Study in Low Voltage Distribution Network in a Real Time Foundry Industry D. Ravichandran * and Er. R. Panneerselvam ** Abstract:

More information

Unit Auxiliary Transformer (UAT) Relay Loadability Report

Unit Auxiliary Transformer (UAT) Relay Loadability Report Background and Objective Reliability Standard, PRC 025 1 Generator Relay Loadability (standard), developed under NERC Project 2010 13.2 Phase 2 of Relay Loadability: Generation, was adopted by the NERC

More information

PRC Generator Relay Loadability. Guidelines and Technical Basis Draft 4: (June 10, 2013) Page 1 of 75

PRC Generator Relay Loadability. Guidelines and Technical Basis Draft 4: (June 10, 2013) Page 1 of 75 PRC-025-1 Introduction The document, Power Plant and Transmission System Protection Coordination, published by the NERC System Protection and Control Subcommittee (SPCS) provides extensive general discussion

More information

APPLICATION FOR INTERCONNECTION & OPERATIONS OF MEMBER-OWNED GENERATION

APPLICATION FOR INTERCONNECTION & OPERATIONS OF MEMBER-OWNED GENERATION APPLICATION FOR INTERCONNECTION & OPERATIONS OF MEMBER-OWNED GENERATION This application should be completed and returned to in order to begin processing the request for interconnecting as required by

More information

Planar PIN diode in a SOD882D leadless ultra small plastic SMD package.

Planar PIN diode in a SOD882D leadless ultra small plastic SMD package. DFN1006D-2 Rev. 2 6 August 2013 Product data sheet 1. Product profile 1.1 General description Planar PIN diode in a SOD882D leadless ultra small plastic SMD package. 1.2 Features and benefits High voltage,

More information

PQ for Industrial Benchmarking with various methods to improve. Tushar Mogre.

PQ for Industrial Benchmarking with various methods to improve. Tushar Mogre. General PQ: Power Quality has multiple issues involved. Thus, need to have some benchmarking standards. Very little is spoken about the LT supply installation within an industry. There is need to understand

More information

GM8036 Laser Sweep Optical Spectrum Analyzer. Programming Guide

GM8036 Laser Sweep Optical Spectrum Analyzer. Programming Guide GM8036 Laser Sweep Optical Spectrum Analyzer Programming Guide Notices This document contains UC INSTRUMENTS CORP. proprietary information that is protected by copyright. All rights are reserved. This

More information

Introduction to Simulation of Verilog Designs. 1 Introduction

Introduction to Simulation of Verilog Designs. 1 Introduction Introduction to Simulation of Verilog Designs 1 Introduction An effective way of determining the correctness of a logic circuit is to simulate its behavior. This tutorial provides an introduction to such

More information

RISH Master 3440i/3440iDL 0.2S

RISH Master 3440i/3440iDL 0.2S Operating Manual RISH Master 3440i/3440iDL 0.2S as per IEC62053-22 Touch Screen Digital Multi-Function Meter Installation & Operating Instructions Section Contents 1. Introduction INDEX 2. Measurement

More information

Chapter # : 17 Symmetrical Fault Calculations

Chapter # : 17 Symmetrical Fault Calculations Chapter # : 17 Symmetrical Fault Calculations Introduction Most of the faults on the power system lead to a short-circuit condition. The short circuit current flows through the equipment, causing considerable

More information

Hyperion System 9 Financial Data Quality Management. Quick Reference Guide

Hyperion System 9 Financial Data Quality Management. Quick Reference Guide Hyperion System 9 Financial Data Quality Management Quick Reference Guide Hyperion FDM Release 9.2.0. 2000 2006 - Hyperion Solutions Corporation. All rights reserved. Hyperion, the Hyperion logo and Hyperion

More information

2018 Consultant s Handbook Division 26 Electrical ARC Flash Hazard Analysis

2018 Consultant s Handbook Division 26 Electrical ARC Flash Hazard Analysis 1 Summary 1.1 Provide a complete Arc Flash Hazard Analysis for the project indicated in the accompanying RFP. The Analysis may be performed: independent of the construction project in concert with the

More information

Impact Assessment Generator Form

Impact Assessment Generator Form Impact Assessment Generator Form This connection impact assessment form provides information for the Connection Assessment and Connection Cost Estimate. Date: (dd/mm/yyyy) Consultant/Developer Name: Project

More information

ATCO ELECTRIC LTD. (Transmission System) SERVICE QUALITY AND RELIABILITY PERFORMANCE, MEASURES AND INDICES Revision 0

ATCO ELECTRIC LTD. (Transmission System) SERVICE QUALITY AND RELIABILITY PERFORMANCE, MEASURES AND INDICES Revision 0 ATCO ELECTRIC LTD. (Transmission System) SERVICE QUALITY AND RELIABILITY PERFORMANCE, MEASURES AND INDICES 2014-03-31 - Revision 0 EUB Decision 2007-071 Board Direction 52 For questions or comments regarding

More information

How to maximize reliability using an alternative distribution system for critical loads

How to maximize reliability using an alternative distribution system for critical loads White Paper WP024001EN How to maximize reliability using an alternative distribution system for critical loads Executive summary The electric power industry has several different distribution topologies

More information

Agilent N7509A Waveform Generation Toolbox Application Program

Agilent N7509A Waveform Generation Toolbox Application Program Agilent N7509A Waveform Generation Toolbox Application Program User s Guide Second edition, April 2005 Agilent Technologies Notices Agilent Technologies, Inc. 2005 No part of this manual may be reproduced

More information

JBus/Modbus Communication Card

JBus/Modbus Communication Card JBus/Modbus Communication Card Installation and Operation 05/2018 www.schneider-electric.com Legal Information The Schneider Electric brand and any registered trademarks of Schneider Electric Industries

More information

AA-35 ZOOM. RigExpert. User s manual. Antenna and cable analyzer

AA-35 ZOOM. RigExpert. User s manual. Antenna and cable analyzer AA-35 ZOOM Antenna and cable analyzer RigExpert User s manual . Table of contents Introduction Operating the AA-35 ZOOM First time use Main menu Multifunctional keys Connecting to your antenna SWR chart

More information

EASTERN ILLINI ELECTRIC COOPERATIVE Application for Operation of Member-Owned Generation

EASTERN ILLINI ELECTRIC COOPERATIVE Application for Operation of Member-Owned Generation EASTERN ILLINI ELECTRIC COOPERATIVE Application for Operation of Member-Owned Generation This application is to be completed and returned to the Cooperative member service representative in order to begin

More information

TRBOnet Guard Tour Configuration and Operation Guide

TRBOnet Guard Tour Configuration and Operation Guide TRBOnet Guard Tour and Operation Guide Version 5.0 World HQ Neocom Software 8th Line 29, Vasilyevsky Island St. Petersburg, 199004, Russia US Office Neocom Software 15200 Jog Road, Suite 202 Delray Beach,

More information

A53106 SERIES DC-TO-DC CONVERTER

A53106 SERIES DC-TO-DC CONVERTER INSTALLATION & MAINTENANCE A53106 SERIES DC-TO-DC CONVERTER AUGUST 2011, REVISED AUGUST 2014 DOCUMENT NO. COM-00-04-20 VERSION C.1 Siemens Industry, Inc., Rail Automation 9568 Archibald Ave., Suite 100,

More information

WARRANTY. Long Range Systems, LLC, 20 Canal St, Suite 4N, Franklin, NH 03235

WARRANTY. Long Range Systems, LLC, 20 Canal St, Suite 4N, Franklin, NH 03235 WARRANTY Long Range Systems, Inc. warrants the trap release product against any defects that are due to faulty material or workmanship for a one-year period after the original date of consumer purchase.

More information

Autodesk Inventor Drawing Manager Tips & Tricks

Autodesk Inventor Drawing Manager Tips & Tricks Alessandro Gasso Autodesk, Inc. MA1280 This class covers several workflows that answer the most common questions from the Inventor users about the Drawing Manager. You will learn how to add the scale value

More information

Low-power configurable multiple function gate

Low-power configurable multiple function gate Rev. 8 7 December 2016 Product data sheet 1. General description The provides configurable multiple functions. The output state is determined by eight patterns of 3-bit input. The user can choose the logic

More information

TRBOnet Enterprise/PLUS

TRBOnet Enterprise/PLUS TRBOnet Enterprise/PLUS Guard Tour User Guide Version 5.2 World HQ Neocom Software 8th Line 29, Vasilyevsky Island St. Petersburg, 199004, Russia US Office Neocom Software 15200 Jog Road, Suite 202 Delray

More information

INTERIM ARRANGEMENTS FOR GRID TIED DISTRIBUTED ENERGY RESOURCES. Technical Requirements for Grid-Tied DERs

INTERIM ARRANGEMENTS FOR GRID TIED DISTRIBUTED ENERGY RESOURCES. Technical Requirements for Grid-Tied DERs INTERIM ARRANGEMENTS FOR GRID TIED DISTRIBUTED ENERGY RESOURCES Technical Requirements for Grid-Tied DERs Projects Division 6/29/2017 Contents 1 Definitions and Acronyms... 1 2 Technical Interconnection

More information

Document C-29. Procedures for System Modeling: Data Requirements & Facility Ratings. January 5 th, 2016 TFSS Revisions Clean Open Process Posting

Document C-29. Procedures for System Modeling: Data Requirements & Facility Ratings. January 5 th, 2016 TFSS Revisions Clean Open Process Posting Document C-29 Procedures for System Modeling: January 5 th, 2016 TFSS Revisions Clean Open Process Posting Prepared by the SS-37 Working Group on Base Case Development for the Task Force on System Studies.

More information

Modbus Register Map: InfraStruXure Symmetra 3-Phase Absolute Starting Register Number, (Decimal)

Modbus Register Map: InfraStruXure Symmetra 3-Phase Absolute Starting Register Number, (Decimal) Modbus Map: InfraStruXure Symmetra 3-Phase 990-3249 // Status Word 0 40000 0 8 Reserved R = UPS ready to provide power to the load upon return of normal line voltage or upon user command = State == Enable

More information

CHAPTER 4 POWER QUALITY AND VAR COMPENSATION IN DISTRIBUTION SYSTEMS

CHAPTER 4 POWER QUALITY AND VAR COMPENSATION IN DISTRIBUTION SYSTEMS 84 CHAPTER 4 POWER QUALITY AND VAR COMPENSATION IN DISTRIBUTION SYSTEMS 4.1 INTRODUCTION Now a days, the growth of digital economy implies a widespread use of electronic equipment not only in the industrial

More information

International Journal of Advance Engineering and Research Development ANALYSIS AND MITIGATION OF HARMONICS IN MEDICAL FIELD

International Journal of Advance Engineering and Research Development ANALYSIS AND MITIGATION OF HARMONICS IN MEDICAL FIELD Scientific Journal of Impact (SJIF): 5.71 International Journal of Advance Engineering and Research Development Volume 5, Issue 04, April -2018 e-issn (O): 2348-4470 p-issn (P): 2348-6406 ANALYSIS AND

More information

Two elements in series configuration in a small SMD plastic package Low diode capacitance Low diode forward resistance AEC-Q101 qualified

Two elements in series configuration in a small SMD plastic package Low diode capacitance Low diode forward resistance AEC-Q101 qualified Rev. 2 25 October 2016 Product data sheet 1. Product profile 1.1 General description Two planar PIN diodes in series configuration in a SOT323 small SMD plastic package. 1.2 Features and benefits Two elements

More information

PART 1 OWNER/APPLICANT INFORMATION

PART 1 OWNER/APPLICANT INFORMATION CALHOUN COUNTY ELECTRIC COOP. ASSN. Application for Operation of Customer-Owned Generation This application should be completed as soon as possible and returned to the Cooperative in order to begin processing

More information

Planar PIN diode in a SOD523 ultra small SMD plastic package.

Planar PIN diode in a SOD523 ultra small SMD plastic package. Rev. 5 28 September 2010 Product data sheet 1. Product profile 1.1 General description Planar PIN diode in a SOD523 ultra small SMD plastic package. 1.2 Features and benefits High voltage, current controlled

More information

Planar PIN diode in a SOD523 ultra small plastic SMD package.

Planar PIN diode in a SOD523 ultra small plastic SMD package. Rev. 10 12 May 2015 Product data sheet 1. Product profile 1.1 General description Planar PIN diode in a SOD523 ultra small plastic SMD package. 1.2 Features and benefits High voltage, current controlled

More information

Complementary Switch FET Drivers

Complementary Switch FET Drivers Complementary Switch FET Drivers application INFO available FEATURES Single Input (PWM and TTL Compatible) High Current Power FET Driver, 1.0A Source/2A Sink Auxiliary Output FET Driver, 0.5A Source/1A

More information

RClamp3654P RailClamp Low Capacitance TVS Array

RClamp3654P RailClamp Low Capacitance TVS Array - RailClamp Description RailClamp is a low capacitance TS array designed to protect high speed data interfaces. This series has been specifically designed to protect sensitive components which are connected

More information

SIEMENS PSS SINCAL Platform 10.5 Update 6

SIEMENS PSS SINCAL Platform 10.5 Update 6 General Information This update can exclusively be used for the PSS SINCAL Platform 10.5. It can't be used with other product versions! Procedure for Installation with Update Wizard Close all running PSS

More information

Impact of High PV Penetration on Grid Operation. Yahia Baghzouz Professor of Electrical engineering University of Nevada Las Vegas

Impact of High PV Penetration on Grid Operation. Yahia Baghzouz Professor of Electrical engineering University of Nevada Las Vegas Impact of High PV Penetration on Grid Operation Yahia Baghzouz Professor of Electrical engineering University of Nevada Las Vegas Overview Introduction/Background Effects of High PV Penetration on Distribution

More information

TRBOnet Enterprise. Quick Reference Guide. Version 5.2. Internet. US Office Neocom Software Jog Road, Suite 202 Delray Beach, FL 33446, USA

TRBOnet Enterprise. Quick Reference Guide. Version 5.2. Internet. US Office Neocom Software Jog Road, Suite 202 Delray Beach, FL 33446, USA TRBOnet Enterprise Quick Reference Guide Version 5.2 World HQ Neocom Software 8th Line 29, Vasilyevsky Island St. Petersburg, 199004, Russia US Office Neocom Software 15200 Jog Road, Suite 202 Delray Beach,

More information

OPERATING, METERING AND EQUIPMENT PROTECTION REQUIREMENTS FOR PARALLEL OPERATION OF LARGE-SIZE GENERATING FACILITIES GREATER THAN 25,000 KILOWATTS

OPERATING, METERING AND EQUIPMENT PROTECTION REQUIREMENTS FOR PARALLEL OPERATION OF LARGE-SIZE GENERATING FACILITIES GREATER THAN 25,000 KILOWATTS OPERATING, METERING AND EQUIPMENT PROTECTION REQUIREMENTS FOR PARALLEL OPERATION OF LARGE-SIZE GENERATING FACILITIES GREATER THAN 25,000 KILOWATTS AND MEDIUM-SIZE FACILITIES (5,000-25,000KW) CONNECTED

More information

20 V, single P-channel Trench MOSFET

20 V, single P-channel Trench MOSFET Rev. 1 12 June 212 Product data sheet 1. Product profile 1.1 General description P-channel enhancement mode Field-Effect Transistor (FET) in a small SOT23 (TO-236AB) Surface-Mounted Device (SMD) plastic

More information

60 V, N-channel Trench MOSFET

60 V, N-channel Trench MOSFET 16 April 218 Product data sheet 1. General description N-channel enhancement mode Field-Effect Transistor (FET) in a small SOT457 (SC-74) Surface- Mounted Device (SMD) plastic package using Trench MOSFET

More information

ULTRA RAPID POWER QUALITY ANALYZER

ULTRA RAPID POWER QUALITY ANALYZER ULTRA RAPID POWER QUALITY ANALYZER Ultra rapid (cycle by cycle) advanced electrical network analysis Complete network harmonics analysis, up to 63 rd harmonic High visibility, 5 graphic LCD screen with

More information

PRC Generator Relay Loadability. Guidelines and Technical Basis Draft 5: (August 2, 2013) Page 1 of 76

PRC Generator Relay Loadability. Guidelines and Technical Basis Draft 5: (August 2, 2013) Page 1 of 76 PRC-025-1 Introduction The document, Power Plant and Transmission System Protection Coordination, published by the NERC System Protection and Control Subcommittee (SPCS) provides extensive general discussion

More information

CHAPTER 2 ELECTRICAL POWER SYSTEM OVERCURRENTS

CHAPTER 2 ELECTRICAL POWER SYSTEM OVERCURRENTS CHAPTER 2 ELECTRICAL POWER SYSTEM OVERCURRENTS 2-1. General but less than locked-rotor amperes and flows only Electrical power systems must be designed to serve in the normal circuit path. a variety of

More information

IDAHO PURPA GENERATOR INTERCONNECTION REQUEST (Application Form)

IDAHO PURPA GENERATOR INTERCONNECTION REQUEST (Application Form) IDAHO PURPA GENERATOR INTERCONNECTION REQUEST (Application Form) Transmission Provider: IDAHO POWER COMPANY Designated Contact Person: Jeremiah Creason Address: 1221 W. Idaho Street, Boise ID 83702 Telephone

More information

IEEE sion/1547revision_index.html

IEEE sion/1547revision_index.html IEEE 1547 IEEE 1547: Standard for Interconnection and Interoperability of Distributed Energy Resources with Associated Electric Power Systems Interfaces http://grouper.ieee.org/groups/scc21/1547_revi sion/1547revision_index.html

More information

2.10. Adjustable Frequency Drives. Clean Power Drives. Clean Power Drives

2.10. Adjustable Frequency Drives. Clean Power Drives. Clean Power Drives .0 Volume 6 Solid-State Control CA0800007E March 05 www.eaton.com V6-T-47 .0 Adjustable Frequency Drives Overview What Are Harmonics? Take a perfect wave with a fundamental frequency of 60 Hz, which is

More information

Low threshold voltage Very fast switching Trench MOSFET technology ElectroStatic Discharge (ESD) protection > 2 kv HBM

Low threshold voltage Very fast switching Trench MOSFET technology ElectroStatic Discharge (ESD) protection > 2 kv HBM 28 April 26 Product data sheet. General description N-channel enhancement mode Field-Effect Transistor (FET) in a very small SOT323 (SC-7) Surface-Mounted Device (SMD) plastic package using Trench MOSFET

More information

Low power DC-to-DC converters Load switching Battery management Battery powered portable equipment

Low power DC-to-DC converters Load switching Battery management Battery powered portable equipment 12 February 213 Product data sheet 1. General description P-channel enhancement mode Field-Effect Transistor (FET) in a small SOT23 (TO-236AB) Surface-Mounted Device (SMD) plastic package using Trench

More information

PMZ950UPEL. 1. General description. 2. Features and benefits. 3. Applications. 4. Quick reference data

PMZ950UPEL. 1. General description. 2. Features and benefits. 3. Applications. 4. Quick reference data 28 June 2016 Product data sheet 1. General description P-channel enhancement mode Field-Effect Transistor (FET) in a leadless ultra small DFN1006-3 (SOT883) Surface-Mounted Device (SMD) plastic package

More information

GENERATOR INTERCONNECTION APPLICATION Category 3 For All Projects with Aggregate Generator Output of More Than 150 kw but Less Than or Equal to 550 kw

GENERATOR INTERCONNECTION APPLICATION Category 3 For All Projects with Aggregate Generator Output of More Than 150 kw but Less Than or Equal to 550 kw GENERATOR INTERCONNECTION APPLICATION Category 3 For All Projects with Aggregate Generator Output of More Than 150 kw but Less Than or Equal to 550 kw ELECTRIC UTILITY CONTACT INFORMATION Consumers Energy

More information

Connection Impact Assessment Application Form

Connection Impact Assessment Application Form Connection Impact Assessment Application Form This Application Form is for Generators applying for a Connection Impact Assessment (CIA). In certain circumstances, London Hydro may require additional information

More information

20 V dual P-channel Trench MOSFET

20 V dual P-channel Trench MOSFET Rev. 1 2 June 212 Product data sheet 1. Product profile 1.1 General description Dual small-signal P-channel enhancement mode Field-Effect Transistor (FET) in a leadless medium power DFN22-6 (SOT1118) Surface-Mounted

More information

SHUNT ACTIVE POWER FILTER

SHUNT ACTIVE POWER FILTER 75 CHAPTER 4 SHUNT ACTIVE POWER FILTER Abstract A synchronous logic based Phase angle control method pulse width modulation (PWM) algorithm is proposed for three phase Shunt Active Power Filter (SAPF)

More information

Power Quality Analysis: A Study on Off-Line UPS Based System

Power Quality Analysis: A Study on Off-Line UPS Based System Power Quality Analysis: A Study on Off-Line UPS Based System P.K.DHAL Department of Electrical and Electronics Engineering VelTech Dr.RR&Dr.SR Technical University # 42 Avadi- VelTech Road, Chennai-62

More information

Features. Table 1: Device summary Order code Marking Package Packing STW75NF30 75NF30 TO-247 Tube

Features. Table 1: Device summary Order code Marking Package Packing STW75NF30 75NF30 TO-247 Tube N-channel 300 V, 35 mω typ., 60 A STripFET II Power MOSFET in a TO-247 package Datasheet - production data Features Order code VDS RDS(on) max. ID PTOT STW75NF30 300 V 45 mω 60 A 320 W TO-247 1 2 3 Exceptional

More information

SOUTH CENTRAL INDIANA REMC Application for Operation of Member-Owned Small Power Generation Systems

SOUTH CENTRAL INDIANA REMC Application for Operation of Member-Owned Small Power Generation Systems SOUTH CENTRAL INDIANA REMC Application for Operation of Member-Owned Small Power Generation Systems This application should be completed as soon as possible and returned to the Cooperative in order to

More information

74AHC1G4212GW. 12-stage divider and oscillator

74AHC1G4212GW. 12-stage divider and oscillator Rev. 2 26 October 2016 Product data sheet 1. General description is a. It consists of a chain of 12 flip-flops. Each flip-flop divides the frequency of the previous flip-flop by two, consequently the counts

More information

Quartus II Simulation with Verilog Designs

Quartus II Simulation with Verilog Designs Quartus II Simulation with Verilog Designs This tutorial introduces the basic features of the Quartus R II Simulator. It shows how the Simulator can be used to assess the correctness and performance of

More information

BAP Product profile. 2. Pinning information. 3. Ordering information. Silicon PIN diode. 1.1 General description. 1.2 Features and benefits

BAP Product profile. 2. Pinning information. 3. Ordering information. Silicon PIN diode. 1.1 General description. 1.2 Features and benefits Rev. 5 28 April 2015 Product data sheet 1. Product profile 1.1 General description Two planar PIN diodes in common cathode configuration in a SOT23 small plastic SMD package. 1.2 Features and benefits

More information

Model 3725/2M. Line Impedance Stabilization Network (LISN) User Manual

Model 3725/2M. Line Impedance Stabilization Network (LISN) User Manual Model 3725/2M Line Impedance Stabilization Network (LISN) User Manual ETS-Lindgren L.P. reserves the right to make changes to any product described herein in order to improve function, design, or for any

More information

SPLVDS032RH. Quad LVDS Line Receiver with Extended Common Mode FEATURES DESCRIPTION PIN DIAGRAM. Preliminary Datasheet June

SPLVDS032RH. Quad LVDS Line Receiver with Extended Common Mode FEATURES DESCRIPTION PIN DIAGRAM. Preliminary Datasheet June FEATURES DESCRIPTION DC to 400 Mbps / 200 MHz low noise, low skew, low power operation - 400 ps (max) channel-to-channel skew - 300 ps (max) pulse skew - 7 ma (max) power supply current LVDS inputs conform

More information

Projects Connector User Guide

Projects Connector User Guide Version 4.3 11/2/2017 Copyright 2013, 2017, Oracle and/or its affiliates. All rights reserved. This software and related documentation are provided under a license agreement containing restrictions on

More information